A uniform electric field of 100 V//m is ...

A uniform electric field of `100 V//m` is directed at `3^@` with the positive x-axis as shown in figure. Find the potential difference `V_(BA)` if `OA=2`m and `OB=4 m.`

Topper's Solved these Questions

ELECTROSTATIC POTENTIAL AND CAPACITORS
DC PANDEY|Exercise Check point 2.1|15 Videos
ELECTROSTATIC POTENTIAL AND CAPACITORS
DC PANDEY|Exercise Check point 2.2|15 Videos
ELECTROMAGNETIC WAVES
DC PANDEY|Exercise Sec C|22 Videos
ELECTROSTATICS
DC PANDEY|Exercise Medical entrances gallery|37 Videos

Similar Questions

Explore conceptually related problems

A uniform electric field to 100 Vm^(-1) is directed at 60^@ with the positive x-axis as shown in figure. If OA= 2 m, the potential difference V_O - V_(A) is

A uniform electric field of 400 V/m is directed at 45^@ above the x-axis as shown in the figure. The potential difference V_A-V_B is given by

A uniform electric field of 100 Vm^-1 is directed at 30^(@) with the positive x - axis as shown in (Fig. 3.153). O A = 2 m and O B = 4 m . . The potential difference V_B - V_A is.

A uniform electric field of 100 Vm^-1 is directed at 30^(@) with the positive x - axis as shown in (Fig. 3.153). O A = 2 m and O B = 4 m . . The potential difference V_O - V_A is.

A uniform electric field of 200 V // m is directed at 45^(@) with x -axis as shown in figure. The co-ordinates of point P and point Q are ( 1,0) and ( 0,2) . Find the potential difference , V_(P) - V_(Q) ( in volts) .

Uniform electric field of magnitude 100 V//m in space is directed along the line y=3+x . Find the potential difference between point A (3, 1) & B(1, 3)

A battery of e.m.f. 10 V is connected to resistance as shown in figure. The potential difference V_(A) - V_(B) between the point A and B is

A uniform electric field is present in the positive x - direction. If the intensity of the field is 5 NC^-1 then find the potential difference (V_B - V_A) between two points A (0 m, 2 m) and B (5 m, 3 m).

An electric field of 20 N/C exists along the negative x-axis in space. Calculate the potential difference V_(B)-V_(A) , where the points A and B are given by : (a) A= (0, 0), B=(0, 4m) (b) A=(2m, 1m), B=(4m, 3m)

DC PANDEY-ELECTROSTATIC POTENTIAL AND CAPACITORS-(C) Chapter exercises

A uniform electric field of 100 V//m is directed at 3^@ with the posit...
Text Solution
|
A capacitor of 2 muF is charged as shown in the figure. When the switc...
Text Solution
|
A parallel plate capacitor of area A, plate separation d and capacitan...
Text Solution
|
A parallel plate air capacitor of capacitance C is connected to a cell...
Text Solution
|
Calculate the charge on equivalent capacitance of the combination show...
Text Solution
|
An isolated sphere has a capacitance of 50 pF. (a) Calculate its radiu...
Text Solution
|
A parallel plate capacitor has 91 plates, all are identical and arrang...
Text Solution
|
A particle of mass 1.96xx10^(-15) kg is kept in equilibrium between tw...
Text Solution
|
The distance of the closest approach of an alpha particle fired at a n...
Text Solution
|
A uniform electric field E is created between two parallel charged pla...
Text Solution
|
A battery charges a parallel plate capacitor of thickness (d) so that ...
Text Solution
|
A capacitor of capacitance 100(mu)F is charged by connecting it to a b...
Text Solution
|
An infinite number of identical capacitors each of capacitance 1 mF ar...
Text Solution
|
A parallel plate capacitor is charged and then isolated. The effect of...
Text Solution
|
A spherical shell of radius 10 cm is carrying a charge q. If the elect...
Text Solution
|
An electron of mass m(e ) initially at rest moves through a certain di...
Text Solution
|
Consider the diagram, A parallel plate capacitor has the plate wi...
Text Solution
|
A conducting sphere of radius R is given a charge Q. The electric pote...
Text Solution
|
Two concentric spheres kept in air have radii R and r. They have simil...
Text Solution
|
Two charges of equal magnitude q are placed in air at a distance 2a ap...
Text Solution
|
Consider two concentric spherical metal shells of radii r(1) and r(2) ...
Text Solution
|